MCP For Claude Marketplace
Propylene Oxide Plant Designer

Propylene Oxide Plant Designer MCP Connector for Claude

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Engineering tool for designing Propylene Oxide production plants and calculating yields.

4 tools Official Updated Oct 1, 2026 Official Vinkius Partner
More Details Connect to Claude

This MCP server provides specialized engineering tools for designing industrial Propylene Oxide (PO) production plants. It allows users to model reactor configurations using calculate_reactor_design, determine oxidant needs with estimate_peroxide_requirements, and predict secondary product outputs via calculate_byproduct_yields. Additionally, it evaluates financial feasibility through calculate_economic_impact, accounting for co-product credits and waste management costs across CHPO, PO/TBA, and PO/SM technologies.

propylene-oxidechemical-engineeringreactor-designindustrial-productionprocess-economics

4 tools expose this connector's capabilities to your AI agent.

calculate_byproduct_yields

Predicts the mass of secondary products and waste generated during the process

calculate_economic_impact

Calculates the net cost impact by factoring in co-product credits and waste treatment expenses

calculate_reactor_design

Determines the physical dimensions and required volume of the primary reactor based on capacity and technology

estimate_peroxide_requirements

Calculates the amount of oxidant/peroxide needed to support the target production capacity

See how to talk to your AI agent using Propylene Oxide Plant Designer.

What is the required reactor volume for a 100,000 mtpa plant using PO/SM technology?

The required reactor volume for a 100,000 mtpa PO/SM plant is 450 cubic meters with a residence time of 4.5 hours.

How much styrene will be produced by a 50,000 mtpa PO/SM plant?

A 50,000 mtpa PO/SM plant will produce 35,000 metric tons of styrene annually.

Calculate the economic impact for a 200,000 mtpa CHPO plant with a waste treatment cost of 50 per ton.

The net plant impact for this CHPO plant is -15,000,000 due to high waste treatment costs and zero co-product credit.

The tool supports three primary technologies: CHPO (Chlorohydrin Process), PO/TBA (Propylene Oxide / Tert-Butyl Alcohol), and PO/SM (Propylene Oxide / Styrene Monomer).

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